Chemistry
1 – 2006
Contacts
First
Year Coordinator: Dr
Mark Ellison
Timetable
|
|
Day
|
Time
|
Location
|
|
Core
Lectures
|
Monday
|
11.00
am
|
MCC
T2
|
|
|
Tuesday
|
8.00
am
|
MCC
T1
|
|
|
Wednesday
|
12.00
noon
|
MCC
T2
|
|
Advanced
Lecture (HPO)
|
Friday
|
11.00
am
|
MCC
T1
|
|
Laboratory
|
Monday-Friday
|
2-5
pm
|
1st
Year Chem Labs
|
|
Tutorials
|
Wednesday
|
9.00
am
|
ENGN
T
|
|
|
Thursday
|
9.00
am
|
ENGN
T
|
|
Basics
Tutorial
|
Monday
|
3.00
pm
|
CHEM
T1
|
MCC
T1/T2: Manning Clark Centre Lecture Theatre 1/Theatre 2
Chem T1/Chem T2: Chemistry Lecture Theatre 1/Theatre 2
Course
Website – online resources
Login
using your student ID and password at https://webct.anu.edu.au/login/
to find the course websites for Chemistry 1 and Chemistry 2.
You will be automatically added to these websites the evening
after you have enrolled in the courses via ISIS. If you cannot
see the online site/s, please contact the First Year Coordinator.
These course websites will contain lecture material, extra resources,
self-test questions and discussion board postings. Please check
these sites at least once per week for important notices.
Course Guidelines – in
brief
Assessment
Assessment and
attendance requirements for each course will be discussed with
you and must be agreed upon within the first two weeks of semester.
As a guide to discussion the course convenor will usually provide
you with a document suggesting assessment.
It is Department
policy that you must obtain a pass mark in the final exam
to pass all courses.
Students who
fail to attend a laboratory session cannot submit a written
report on that laboratory for assessment.
Safety
You must wear
the appropriate protective clothing (laboratory coat, safety
glasses and covered shoes) to participate in a practical class.
Students who do not comply will not be permitted to work
in the laboratory. Laboratory coats and safety glasses may be purchased
from the School of Biochemistry and Molecular Biology (BaMBi)
enquiries office. (More information)
Prerequisites
You must have
completed the correct prerequisite or have written approval
of the course convenor for a valid enrolment in a course.
Please refer to http://info.anu.edu.au/studyat/
or enquire at the Faculty of Science Office (Frank Fenner Building,
Bldg 42).
Student Representation
Two students
from first-year and one student from each of second and third
year (as well as Honours and PhD) will be elected in the first
two weeks of semester to represent their year group on the Chemistry
Department’s Teaching and Learning Committee. (More Information)
Policy on the Submission
of Written Material
This policy reflects the
ANU Code of Academic Honesty in Learning and Teaching:
http://info.anu.edu.au/policies/Codes_of_Practice/Students/Other/Academic_Honesty.asp
It is the responsibility
of each student to ensure:
·
Work submitted for assessment
is genuine and original;
·
Appropriate acknowledgement
and citation is given to the work of others;
·
He or she does not knowingly
assist other students in academically dishonest practices;
·
Familiarity with the
expectations for academic honesty both in general, and in the
specific context of particular disciplines or courses, where
these expectations are clearly outlined in faculty and course
guides and handbooks.
For Chemistry
students the definitions and penalties are set out below.
Plagiarism
Plagiarism is
copying, paraphrasing or summarising, without acknowledgement,
any work of another person with the intention of representing
this as the student’s own work. This remains plagiarism whether or not it is
with the knowledge or consent of that other person.
Direct copying
falls under the definition of plagiarism.
When students work together, they must be sure to write
independently, and not in collaboration with another student
or group of students. The
purpose of assessment is to evaluate each student’s mastery
of skills and knowledge. It
is acceptable for students to compare and discuss results of
experiments of essay concepts, but written work must reflect
individual effort and all written work must be the student’s
own.
To avoid plagiarism
students must correctly acknowledge the work of others.
If students transcribe, quote, paraphrase or summarise
the ideas obtained form the work of others, they must identify
the source and author of the original work and provide a bibliography.
Penalty:
zero marks. Serious,
and in particular repeated instances of academic dishonesty,
constitute misconduct and need to be dealt with under the ANU
Discipline Rules.
Multiple Submissions
(Recycling)
Recycling is
the submission of work for assessment, which has been previously
presented by the same student for another assessment either
at ANU or elsewhere. In
some cases, lecturers will specifically allow this practice. If no specific provision is made then it constitutes
academic dishonesty when assessment is submitted a second or
subsequent time.
Penalty:
zero marks. Serious
and, in particular repeated instances of academic dishonesty,
constitute misconduct and need to be dealt with under the ANU
Discipline Rules.
Fabrication or Falsification
of Data
Fabrication
of research is the representation of data, observation or other
research activity as genuine, comprehensive and/or original
when it has been arrived at through other means.
These may be inventing data, using data gathered by other
researchers without acknowledgement, or deliberately omitting
data to obtain the apparently desired results.
Any data presented
as the result of laboratory work (in the form of drawings, graphs,
tables or written work) must be true and representative of your
findings.
Penalty:
zero marks. Serious
and, in particular repeated instances of academic dishonesty,
constitute misconduct and need to be dealt with under the ANU
Discipline Rules.
Collusion
Collusion is
the representation of original work of several persons as the
work of a single student. Collusion needs to be distinguished from collaboration,
defined for the purposes of this document as work jointly undertaken
and produced within permissible parameters. Another form of collusion involves representing
the work of one good student as the work of several individual
students, in for example the situation where students A, B and
C pay student D to do the assignment and give them each a copy,
which they then rephrase and submit as their own.
Penalty:
zero marks. Serious
and, in particular repeated instances of academic dishonesty,
constitute misconduct and need to be dealt with under the ANU
Discipline Rules.
Cheating
Cheating in
this code means the breach of rules regarding formal examinations,
or dishonest practice in informal examination, tests or other
assessments. Examples
include the use of prohibited material or equipment for unfair
advantage, consultation with other persons during the course
or the assessment where this is prohibited.
Penalty:
zero marks. Serious
and, in particular repeated instances of academic dishonesty
constitute misconduct and need to be dealt with under the ANU
Discipline Rules.
Chemistry – The
Central Science
There
are currently two first year Chemistry courses available at
ANU:
·
Chemistry
1 (CHEM1101) offered in semester 1, and
·
Chemistry
2 (CHEM1201) offered in semester 2.
Chemistry
1 and 2 together correspond to a full year course in general
chemistry.
Both
Chemistry 1 and Chemistry 2 have an associated Honours Pathway
Option (HPO). The HPO
is strongly recommended for students with a strong background/interest
in chemistry (from College, Science Summer School, Olympiad
or equivalent) and for students who intend to go on with chemistry
in second year.
It
is expected that all students in the PhB or Honours degree
programs enrolled in Chemistry 1 or Chemistry 2 will complete
the HPO. The latter
consists of an additional advanced lecture each week which
extends the core lecture material given in Chemistry 1 and
Chemistry 2. Students should note that Chemistry 1 is
a necessary prerequisite for enrolment in the second semester
course Chemistry 2.
Chemistry
1 Outline
Chemistry
1 is
a one-semester chemistry course designed to cover the needs
of a wide variety of students by offering a broad introduction
to a range of chemical concepts. The course serves not only as a sound foundation
in chemistry, but also as a useful and necessary background
for those whose main interests lie in engineering, the earth,
or biological sciences. Where possible, chemical principles
are illustrated by applications to biological or geological
systems; the emphasis, however, is distinctly on developing
a knowledge and understanding of a basic set of chemical concepts
and facts.
Course
Aims:
As
it is assumed that students in Chemistry 1 will have completed
at least a minor in high school/college chemistry, the main
emphasis lies in consolidating and extending the factual
basis of chemistry and developing a sound comprehension of the
basic chemical principles and concepts.
The
general aims are to:
1.
consolidate
a factual background in the language of chemistry (nomenclature),
basic structural aspects, and major / typical reaction types.
2.
develop
an understanding of the basic concepts of atomic structure,
bonding, energy and entropy, and the kinetic theory of reactions.
3.
develop
an understanding of how various structural features determine
the main reactivity patterns of simple chemical compounds.
4.
develop
problem solving skills, both qualitative and quantitative, in
areas deriving from aims 1 - 3.
Where
possible, examples will be chosen to illustrate the application
of these concepts and principles that are of relevance to biologists,
engineers, geologists, or to the wider community.
Later
year courses in chemistry broaden and deepen students’ comprehension
of chemical concepts, principles, and their inter-relationships. These higher courses also further develop students’
abilities to apply these principles to a wide variety of chemical
systems and problems of current interest or importance.
Course
Structure, Content, and Objectives:
The
course material will follow fairly closely the structure and
content of the two set textbooks (see below).
Development of the chemical concepts and topics is describedin
the following syllabus. The syllabus also sets out the main learning
objectives for each section; these objectives will be closely
allied to the assessment process.
Text
Books:
The
prescribed textbooks are:
M.
S. Silberberg, Chemistry – The Molecular Nature of Matter and
Change, 4th Edition, McGraw-Hill, 2006.
The 3rd Edition is also suitable.
W.
H. Brown & T. Poon Introduction to Organic Chemistry, 3rd
Edition, Wiley, 2005.
These
texts form the basis of the course (also Chemistry 2), and many
of the examples, illustrations, and exercises used will be taken
directly from them. They
should be used extensively and intelligently to support and
enhance your understanding of the subject.
There are also accompanying CD ROMs for both texts as
well as a self-learning software package in organic chemistry
(see under Software). In addition, a molecular models kit is
also packaged with the Brown textbook.
Preliminary
Reading:
The
first four chapters of the Silberberg text contain basic background
material that is assumed knowledge for Chemistry 1.
Students are advised to read these chapters in advance
of the first lectures (or at least in the first week).
If much of this material is unfamiliar, you should attend
the Basics Tutorial and a small group tutorial.
It would also be useful to discuss your progress with
the First Year Coordinator.
Tutorials:
Tutorial
sessions will start from week 2.
Two
time slots are available each week (see timetable schedule). The tutorials provide the opportunity for students
to ask questions on all aspects of the course as well as covering
issued sets of problems from the texts.
These tutorials are presented by the lecturer. Additional tutorials can be scheduled if demand
is high enough. In general,
HPO students are not expected to attend the tutorials although
they are most welcome.
There
will also be a Basics Tutorial offered beginning in week 2 covering
concepts in chemistry that are considered to be fundamental
for Chemistry 1. For example, the first Basics Tutorial will
cover the concept of the mole.
The Basics Tutorials will be given by the First Year
Coordinator.
In
addition there will be several small tutorial groups available
(see table below) to help with difficulties students might be
experiencing with any component of Chemistry 1.
There is no need to sign up for these small group sessions
– just come along.
|
Day
|
Time
|
Venue
|
Tutor
|
|
Tuesday
|
10.00
am
|
Chemistry
Building Rm 1.56
|
Mark
Ellison
|
|
Thursday
|
11.00
am
|
Chemistry
Building Rm 1.56
|
Sarah
Leitch
|
|
Thursday
|
12.00
noon
|
Chemistry
Building Rm 1.56
|
Mark
Ellison
|
|
Friday
|
9.00
am
|
Chemistry
Building Rm 1.56
|
Mark
Ellison
|
Laboratory
Course
Chemistry
is essentially an experimental science.
The laboratory program consists of a variety of experimental
exercises designed to:
1.
illustrate
and develop competence in a range of chemical techniques and
manipulative skills.
2.
emphasise
(particularly in first term) the importance of a quantitative
analytical approach to chemical systems.
3.
develop
an awareness of the scope and limitation of experimental observation
and accuracy.
4.
illustrate
chemical topics, principles and concepts.
Attendance
Laboratory
classes (3 hr sessions) will run for most of the semester, beginning
in the second week. Attendance at ALL NINE sessions is compulsory.
A
pass in the prescribed laboratory work in each semester is
required in order to gain a pass in the Chemistry 1 and 2
courses.
A
schedule of experiments will be displayed on the noticeboard
outside the ground floor student laboratories as well as on
the CHEM1101 WebCT site.
Signing
Up
There
will be a number of laboratory class groups operating on Monday
to Friday afternoons. Choose one group which is compatible with
your timetable and sign for this online using the laboratory
booking link on the homepage of the Department’s website (http://chemistry.anu.edu.au). Discuss any timetable clashes immediately with
the First Year Coordinator (Dr Mark Ellison, Room 1.33) or the
First Year Laboratory Technician (Fiona Roxburgh or Jodi Smith).
If
you have satisfactorily completed the laboratory component of
this course or a similar one, you may be eligible for a lab
exemption. Please discuss the matter with the First Year Coordinator
as soon as possible.
Fees
There
is a fee of $45 which must be paid by the end of the second
week of semester. On presentation of your receipt to Ms Jo Fischetti
(Departmental Administrator, 1st floor, Chemistry Building),
you will be issued with the laboratory manual and workbook for
this course.
Equipment
You
need a laboratory coat and a notebook for laboratory classes.
Laboratory coats can be purchased from the School of Biochemistry
and Molecular Biology (BaMBi) office (Building 41).
Safety glasses are provided.
Molecular
Models
Three
dimensional (3D) molecular structures will be used throughout
the course. Stereochemical concepts (chemistry in 3D) can
most readily be appreciated through manipulation of suitable
molecular models. To facilitate this, exercises involving molecular
models have been incorporated into the laboratory course.
These limited exposures to molecular models are, however,
inadequate and you will most likely need to refresh your knowledge
of the many stereochemical features on a frequent basis.
For
this purpose, sets of Darling molecular models and HGS/Maruzen
models are available for purchase from the University Bookshop.
Both types of models are suitable for use in Chemistry
1 and 2 and further chemistry units.
Software
The
Department has purchased a self-learning software package in
organic chemistry entitled Introduction to Organic Chemistry
by Falcon Software. This package will enable you to revise and consolidate
lecture material, and the use of interactive animations will
assist you in grasping difficult concepts in organic chemistry. The software is readily accessible on the PCs
in the Department as well as on the PCs in the Teaching and
Learning Technology Support Unit (TLTSU).
In addition, there are CD-ROMs accompanying both text
books. The CyberChem CD ROM set, available with the Silberberg
textbook, is also a valuable aid, particularly for students
with weaker backgrounds in chemistry.
Assessment
To
ensure a passing grade (or better), students are required to
pass BOTH theory and laboratory components of the course.
Assessment
for the standard Chemistry 1 course includes the following components
and suggested weighting:
·
a
2 hour mid-semester exam, held at 7 pm on Thursday 6 April (33%);
·
a
2 hour end-of-semester exam, held in the June/July exam period
(42%);
·
regular
submission of laboratory reports (25%).
The
mid-semester exam will assess lecture material covered up
to the end of week 6 and will be held on Thursday evening
on April 6th. The end-of-semester exam will assess lecture
material from week 7 onwards and will be held in the June/July
exam period. It is hoped that the mid-semester exam will alert
students to the standards expected and give valuable early
feed-back on progress.
Assessment
of the (HPO)
For
students who wish to complete the Honours Pathway Option, there
is an additional 1-hour exam, held in the June/July exam period. The exam will examine material ONLY from
the 12 additional lectures.
For
those of you who undertake the HPO lectures, the assessment
for the standard Chemistry 1 course will count 90% towards the
final grade and the examination associated with the Honours
Pathway Option 10%. Students
will be required to obtain a minimum mark for the Honours Pathway
Option of greater than or equal to 30% in order to have it registered
on their academic transcript.
Supplementary
Assessment
The
Supplementary Examination will be held at 9.30am on Friday 14
July. You will be formally advised after the end of
semester examination whether you need to undertake supplementary
assessment.
Student
Representation on Committees
The Chemistry Department Teaching and Learning Committee
and the Chemistry 1 Class Committee are two committees that
are relevant to Chemistry 1 students. Two student members should
be elected to the Teaching and Learning Committee.
In order to streamline the election process, these members
may be elected from the Chemistry 1 Class Committee representatives
(see below).
The
second committee, the Chemistry 1 Class Committee, usually consists
of one representative from each laboratory group, and meets
with the lab and course coordinators. This committee is directly
concerned with Chemistry 1 matters and would normally meet twice
during each semester.
As
students entering Chemistry 1 are new to the system and generally
unfamiliar with each other, it is usual to conduct elections
for these committee representatives several weeks after lectures
commence (approximately week 3).
We look forward to your active participation in the running
and decision making of the Chemistry Department on matters that
directly affect you, the undergraduate students of the Department.
Please
see the First Year Coordinator for advice about any aspect
of Chemistry 1, methods of study, how to access chemistry
resources, the exams and questions you have about the teaching.
We hope you enjoy your experience in Chemistry at ANU.
Chemistry
1 Syllabus – 2006
|
Topic
|
No.
lectures/
Lecturer
|
Content
|
Objectives
|
|
Basic
concepts and stoichiometry
|
None
|
|
With
molecular sight a typical scene in the laboratory, the
flame of a Bunsen burner, becomes a source of hurtling
particles. Molecules of methane and oxygen react near
the tip to form carbon dioxide and water.
The study of chemistry reveals the world we observe
as the result of a hidden, atomic reality – one we can
measure and change – and these four chapters opens the
door to it.
|
|
|
|
|
|
|
Introduction
|
1
L ME
|
Introduction
to Chemistry 1.
|
Appreciate
the need for a thoughtful approach to understanding chemistry.
|
|
Atomic
Structure and Bonding
|
11
L RS
+4
Adv L
|
Electronic
structure of atoms, periodic properties of elements, chemical
bonding, molecular geometries, VSEPR model.
S.
Ch 7-11; BP. Ch
1
|
What
does the atom “look” like?
Here we follow the astounding scientific discoveries
of the young 20th century that led to our current atomic
model.
How
do molecular shapes emerge from interacting atoms? In everyday life, the shapes of many objects
fit together to perform a function – key and lock, hand
and glove. Similarly an organism’s molecules have shapes
that fit together to trigger the processes of life. Here we look at molecules as 2-D structural
formulas and then visualise them as 3-D objects.
|
|
|
|
|
|
|
Introductory
Thermodynamics and Electrochemistry
|
7
L ME
+2
Adv L
|
|